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dgs-1005d manual deutschInformation in this document is subject to change without notice.Preface. The DGS-1005D Manual is divided into sections that describe the system installation. Pagina 5: REAR PANEL DESCRIPTION D-Link DGS-1005D Unmanaged Gigabit Ethernet Switch. Safety Instructions. Use the following safety guidelines to ensure your own personal safety. Pagina 6: BEFORE YOU CONNECT TO THE NETWORK D-Link DGS-1005D Unmanaged Gigabit Ethernet SwitchPagina 7: Power Failure D-Link DGS-1005D Unmanaged Gigabit Ethernet Switch. Protecting Against Electrostatic Discharge. Static electricity can harm delicate components inside your system. Pagina 8: SWITCH TO HUB OR SWITCH D-Link DGS-1005D Unmanaged Gigabit Ethernet SwitchThe picture above shows the default priority setting. Pagina 10: TECHNICAL SPECIFICATIONS D-Link DGS-1005D Unmanaged Gigabit Ethernet SwitchPagina 11 D-Link DGS-1005D Unmanaged Gigabit Ethernet Switch. LED Indicators. Rear Panel Description. DC Power Jack. Power is supplied through an external AC. Pagina 13 D-Link DGS-1005D Unmanaged Gigabit Ethernet SwitchMounting the Switch on a Wall. The DGS-1005D can also be mounted on. Pagina 15 D-Link DGS-1005D Unmanaged Gigabit Ethernet SwitchConnecting The SwitchPagina 17 D-Link DGS-1005D Unmanaged Gigabit Ethernet SwitchTechnical SpecificationsTransmissionMethod. RAM Buffer: 128KBytes per device. Filtering AddressPagina 20 D-Link DGS-1005D Unmanaged Gigabit Ethernet Switch. These limits are designed to provide reasonable protection against harmful interference in a residential installation. Seite 3 LIMITED WARRAN TY D - Link Systems, Inc. (“D - Link”) provides this limited warranty for its product only to the person or entity who originally purchased the product from D - Link or its authorized reseller or distributor.http://practicmed.ru/files/boyesen_quickshot_ma.xml
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Seite 4 determines in its sole discretion that it is not practical to repair or replace the defective Hardware, the price paid by the original purchaser for the defective Hardware will be refunded by D - Link upon return to D - Li nk of the defective Hardware. Seite 5 Submitting A Claim. Any claim under this limited warranty must be submitted in writing before the end of the Warranty Period to an Authorized D - Link Service Office. The claim must include a written description of the Hardware defect or Software noncon formance in sufficient detail to allow D - Link to confirm the same. Seite 6 IS” WITHOUT ANY WARRANTY OF ANY KIND INCLUDING, WITHOUT LIMITATION, ANY WARRANTY OF MERCHANTABILITY, FITNESS FOR A PARTICULAR PURPOSE AND NON - INFRINGEMENT.Fast Ethernet Technology The growing importance of LANs and the increasing complexity of desktop computing applications are fueling the need for high performance networks. Seite 12 2 Switching Technology Another approach to pushing beyond the limits of Ethernet technology is the development of switching technology. A switch bridges Ethernet packets at the MAC address level of the Ethernet protocol. It transmits packets among connecte d Ethernet or Fast Ethernet LAN segments. Seite 13 3 Switching LA N technology is a marked improvement over the previous generation of network bridges, which were characterized by higher latencies. Today switches are an ideal solution to most kinds of local area network congestion problems. Seite 14 4 allocated for each port, while controlling the data flow between the transmit and receive nodes to guarantee against all possible packet loss. Both the front and rear panels are shown followed by a description of each panel featu re. The indicator panel is described in detail in the next chapter. Seite 18 8 it on. MDI - X Jacks: Use these jacks to connect stations to the hub.http://adrijaadrika.com/userfiles/boygofast-manual.xml These are MDI - X (Medium - Dependent Interface, Cross - wired) jacks, which mean, you can use ordinary straight - through twisted - pair cables to connect user machines and servers to the switch through them. Seite 19 9 green as Fast Ethernet data is transmitted or received. For 100Mbps operation Category 5 must be used. For 100Mbps operation a Category 5 cable must be used. The connection is accomplished from the hub uplink (MDI - II) port to any of the Switch (MDI - X) ports. Seite 23 11 B. Using crossover cable When using crossover cable, the connection can be made from any ports of the Switch to any port of the Hub. Switch to Switch (other devices) The Switch can be connected to another switch or other devices (routers, bridges, etc.Dies sollten wir wegen ein paar einfacher Grunde machen: Schauen Sie zuerst die ersten Seiten der Anleitung durch, die Sie oben finden. Dort finden Sie die wichtigsten technischen Daten fur D-Link DES-1005D - auf diese Weise prufen Sie, ob das Gerat Ihren Wunschen entspricht. Wenn Sie tiefer in die Benutzeranleitung von D-Link DES-1005D reinschauen, lernen Sie alle zuganglichen Produktfunktionen kennen, sowie erhalten Informationen uber die Nutzung. Die Informationen, die Sie uber D-Link DES-1005D erhalten, werden Ihnen bestimmt bei der Kaufentscheidung helfen. Sie erfahren dann, ob Sie die zuganglichen Funktionen richtig genutzt haben, aber auch, ob Sie keine Fehler begangen haben, die den Nutzungszeitraum von D-Link DES-1005D verkurzen konnten. Sie finden dort fast immer Troubleshooting, also die am haufigsten auftauchenden Storungen und Mangel bei D-Link DES-1005D gemeinsam mit Hinweisen bezuglich der Arten ihrer Losung. You may have to register before you can post: click the register link above to proceed. To start viewing messages, select the forum that you want to visit from the selection below.http://www.bosport.be/newsletter/3jh2e-manual Since the NMEA0183 output data is changeable between version 1. 5 and version 2. 1, you can connect the DGPS 212 to various Marine Electronics Equipment such as Marine Radars, Fishfinders, Plotters, or others. PPS Signal Output. The DGPS 212 outputs a pulse per second which coincides with UTC second precisely. It can be used as a precise clock. SPECIFICATIONS GPS Specifications. JRC GPS DisplayGeneral. Data output. PPS signal output Geodetic datum. Specifications subject to change without notice. Caution Before attempting to operate this unit, read the instruction manual thoroughly to correctly and safty operate the unit. For further information, contact. Seattle Branch:Since 1915Overseas Branches: Seattle, London Liaison Offices: Kaohsiung, Manila, Bangkok, Singapore, Jakarta, New Delhi, New York, Rotterdam, Piraeus, Las Palmas. In any way can't Lastmanuals be held responsible if the document you are looking for is not available, incomplete, in a different language than yours, or if the model or language do not match the description. Lastmanuals, for instance, does not offer a translation service. By using SBAS you can achieve precise position. By using DGPS you can achieve true DGPS accuracy. And also, typically 40 Any products can be Otherwise and come with Full Manufacturer's Warranty Marine Electronics Store.https://climatechange-news.com/images/botex-scene-setter-manual.pdf Using RNA sequencing (RNA-seq), we transcriptionally profiled melanoma cells before and after siRNA-mediated knockdown of SLNCR in WM1976, the MSTC expressing the highest levels of SLNCR. Depletion of SLNCR significantly dysregulated 222 genes compared with a scramble siRNA control, upregulating 131 genes and downregulating 91 genes (p Figure 1A; Table S1 ). Open in a separate window Figure 1. SLNCR Regulates Melanoma Proliferation (A) Heatmap of differentially expressed genes upon knockdown of SLNCR in MSTC WM1976. Shading represents the log2 fold change compared with the scramble siRNA control. Analysis of the full melanoma dataset from The Cancer Genome Atlas (TCGA) revealed that SLNCR expression is significantly correlated with expression of 120 candidate target genes (p Table S1; Schmidt et al., 2016 ). Moreover, expression of SLNCR and 62 of these target genes is significantly correlated, even when correcting for multiple-hypothesis testing (Bonferroni correction, p SLNCR -regulated genes. Importantly, 6 DEGs are discordantly regulated upon SLNCR or SLNCR1 knockdown, supporting our conclusion that SLNCR isoforms have unique functions. Because knockdown of SLNCR or SLNCR1 only similarly dysregulates the majority of DEGs, and all three SLNCR isoforms bind AR, we focused on isoform-overlapping regulation of AR. Proliferation of the melanoma cell line A375 was slightly reduced upon SLNCR knockdown (p SLNCR, which limits the fold depletion and range of knockdown-related phenotypes ( Figure 1D; Schmidt et al., 2016 ). Importantly, knockdown of SLNCR did not alter the percentage of apoptotic cells in either MSTCs or in A375 melanoma cells ( Figure S2D ). Collectively, these experiments indicate that SLNCR increases melanoma proliferation.http://thefutureofgolf.eu/wp-content/plugins/formcraft/file-upload/server/content/files/162745bad3caf5---brother-5140-manual.pdf Because depleting SLNCR1 alone did not affect cell growth, SLNCR isoforms likely share an overlapping role in regulation of melanoma proliferation, with SLNCR2 and SLNCR3 able to functionally compensate in the absence of SLNCR1 ( Schmidt et al., 2016 ). Consistent with previous studies implicating AR in melanoma cell proliferation ( Morvillo et al., 1995, 2002 ), the anti-androgen flutamide, which competes with androgen for binding to AR, significantly decreased melanoma cell proliferation (p Figure S3A ). Although this suggests an androgen-dependent role of AR in melanoma proliferation, SLNCR and AR interact even in the absence of canonical ligand-induced AR activation ( Schmidt et al., 2016 ). Although standard cell culture conditions use fetal bovine serum, which contains exogenous hormones, it is unknown whether these standard cell culture conditions accurately reflect the natural hormone state of the melanoma tumor microenvironment. To test whether AR regulates melanoma proliferation in the absence of androgens, we quantified melanoma cell proliferation in hormone-depleted medium (phenol-red free medium supplemented with charcoal-stripped medium) before and after AR depletion. AR knockdown significantly decreased proliferation of hormone-deprived melanoma cells (p Figure 2A ). These results confirm that AR also regulates melanoma proliferation in an androgen-independent manner. Cell proliferation was quantified using WST-1 reagent, as in Figure 1D. To test whether SLNCR and AR cooperatively regulate melanoma proliferation, we introduced short, single-stranded RNA oligonucleotides designed to sterically block the interaction of SLNCR and AR. These oligonucleotides either mimic the SLNCR sequence required for AR binding and dominantly repress AR binding to SLNCR (mimic 1 or 2) or are the reverse complement to the SLNCR sequence required for AR binding, which generates double-stranded RNA incapable of binding AR (antisense 1 or 2).cmf-inc.com/ckfinder/userfiles/files/canon-laser-class-730i-parts-manual.pdf The antisense oligonucleotides are specifically designed to bind to SLNCR without eliciting RNase H-mediated degradation of SLNCR. We note that the steric blocking oligonucleotides occasionally upregulated SLNCR expression 2- to 3-fold, possibly resulting from a feedback loop regulating SLNCR expression that is initiated upon inhibition of SLNCR function (the mechanism of which is beyond the scope of this manuscript). Decreased cell proliferation upon inhibition of the SLNCR -AR interaction, despite increased SLNCR expression, further indicates that SLNCR and AR cooperatively regulate melanoma proliferation. SLNCR and AR Cooperatively Regulate Melanoma Gene Expression We next used AR chromatin immunoprecipitation and massively parallel sequencing (ChIP-seq) to identify global genomic loci bound by ligand-free AR (i.e., hormone-deprived cells). Performing AR ChIP-seq from MSTCs is technically challenging because of low AR expression; thus, we performed AR ChIP-seq from higher AR-expressing A375 melanoma cells. Because SLNCR1 regulates AR occupancy at at least one genomic region ( Schmidt et al., 2016 ), cells were transfected with either an empty or SLNCR1 -expressing vector, representing either endogenous SLNCR levels or SLNCR1 overexpression conditions. AR ChIP-seq identified a total of 9,974 AR binding regions (referred to as “active regions”; 5,717 for the empty vector and 8,239 for the SLNCR1 -expressing vector) in hormone-deprived A375 melanoma cells ( Table S2 ). Numbers on the top left indicate the plot height for the tracks. (B) Left panel: Venn diagram representing the numberof active genes (i.e., AR-bound genes) in A375 cells transfected with eitheran empty or SLNCR -expressing plasmid. Right panel: plot of tag densities for vector or SLNCR1 -expressing cells.www.adatechotomasyon.net/wp-content/plugins/formcraft/file-upload/server/content/files/162745bbbd0e73---brother-5050-manual.pdf (C) Venn diagram representing AR active genes (as determined via AR ChIP-Seq of either vector or SLNCR -expressing cells), SLNCR differentially expressed genes (DEGs) (as determined via RNA-seq), and genes that are both AR-bound and SLNCR -regulated (significant enrichment, binomial test, p See also Figure S4. Several lines of evidence indicate that SLNCR1 regulates AR chromatin occupancy. Because AR binds multiple SLNCR1 -and SLNCR -regulated genes, even in the absence of ectopically expressed SLNCR1 ( Table S2 ), we considered all identified AR-bound genes in subsequent analyses. To identify candidate AR- and SLNCR -regulated genes, we searched for genes that are both AR-bound (AR binds within 10,000 bp of gene annotation), as determined by AR ChIP-seq ( Table S2 ), and SLNCR -regulated, as determined by RNA-seq ( Table S1 ). Consistent with a functional relationship between SLNCR and AR, AR binding is enriched among SLNCR -regulated genes. For example, 25.3 of genes (9,139 of 36,074 NCBI-defined genes) were bound by AR, but 43.2 of SLNCR -regulated genes (96 of 222) were bound by AR (binomial test, p Figure 3C; Table S2 ). Contrary to decreased levels upon SLNCR knockdown, AR knockdown increased the levels of CXCL2 (1.25- to 1.75-fold), suggesting that SLNCR and AR may regulate the expression of certain target genes in an opposing manner. Integrative analysis of SLNCR RNA-seq and AR ChIP-seq datasets reveals that AR binding is enriched on SLNCR -regulated genes and suggest that AR and SLNCR similarly regulate the expression of many of these target genes both in vitro and in vivo. Analysis of TCGA expression data reveals that AR is significantly correlated with expression of over half of SLNCR -regulated genes (148 of 222), 66 of which are also bound by AR based on our ChIP-seq analysis ( Table S2 ).www.hypnotiseur.com/wp-content/plugins/formcraft/file-upload/server/content/files/162745bcc58b9d---brother-4800-manual.pdf Correcting for multiple-hypothesis testing (Bonferroni correction) maintained the significance of AR correlation with 92 SLNCR -regulated genes, 43 of which are bound by AR. SLNCR and AR Cooperatively Inhibit Expression of the Cyclin-Dependent Kinase Inhibitor p21 in a p53-Independent Manner We next examined the mechanism of AR- and SLNCR -mediated regulation of one representative gene. Moreover, knockdown of SLNCR has been shown to increase p21 mRNA in lung cancer cells ( Roth et al., 2018 ). AR knockdown also increased p21 mRNA levels (1.3- to 2.5-fold increase; Figure 4B ). Shown is relative expression of the indicated transcripts 72 h post-transfection of the indicated cells with 10 nM of either scramble or SLNCR -targeting (A) or AR-targeting (B) siRNAs.Error bars represent SD calculated from 3 reactions. (C and D) Knockdown of SLNCR (C) or AR (D) increases p21 protein levels. Protein levels were quantified using ImageJ and are presented as a fold change of p21 levels normalized to GAPDH levels. Shown is relative expression of the indicated transcripts 72 h post-transfection of the p53-deficient SK-MEL-28 melanoma cell line with 10 nM of either scramble or SLNCR- or AR-targeting siRNAs as in (A and B). (F) AR and SLNCR inhibit p21 expression independent of p53. The same as in (C) and (D), using the p53-deficient SK-MEL-28 melanoma cell line. The cells were stained with propidium iodide (PI) 72 h post-transfection with the indicated siRNAs. Left panel: cell populations of one representative analysis. Right panels: cell populations were analyzed using FlowJo software, and significance was calculated using GraphPad Prism software. Bars represent the average percentage of total cells in the indicated stage of the cell cycle, and error bars represent SD from 3 independent replicates.www.cmevalves.com/pictures/files/canon-laser-class-730i-owners-manual.pdf Nuclear fractions were isolated from WM 1976 cells 72 h post-transfection with either scrambled or si- SLNCR (1) siRNA and entered directly in Signosis Transcription Factor Activation Array I. The ratio of relative luminescence units (RLUs) corresponds to the indicated transcription factor signals of si- SLNCR (1) versus the scramble control. Shown are only transcription factors with significantly altered activity. (I) Transcription factor networks enriched among SLNCR -regulated genes that are not bound by AR. The analysis was performed using MetaCore (Thompson Reuters). See also Figure S5. We next tested whether SLNCR depletion mimics p21-induced melanoma phenotypes. In addition to inducing cell cycle arrest, p21 binds to and regulates the activity of many transcription factors ( Abbas and Dutta, 2009 ). We therefore quantified nuclear transcription factor binding to specific DNA motifs in WM1976 cells before and after depletion of SLNCR ( Figures 4H and S5D ). SLNCR knockdown reduced DNA binding of two transcription factors bound to and regulated by SLNCR1 (AR and Brn3a) by 60, as measured by transcription factor activation array. These data suggest that SLNCR directly (through protein-RNA interactions) and indirectly (through p21-mediated regulation) regulates the activity of multiple transcription factors. Collectively, SLNCR knockdown phenocopies p21-mediated cell cycle arrest and transcription factor regulation, suggesting that SLNCR knockdown induces biologically relevant upregulation of p21. Because SLNCR knockdown dysregulated the activity of multiple transcription factors ( Figure 4H ), we hypothesized that altered transcription factor activity might explain transcriptional effects of SLNCR not directly attributed to AR binding. Interestingly, SLNCR knockdown also altered the expression of STAT3-regulated genes, a transcription factor whose expression is regulated by both SLNCR and AR ( Table S2; Figure S4B ). However, depletion of SLNCR does not appear to affect STAT3 activity ( Figure S5D ), warranting further investigation into the nature of STAT3 regulation. Collectively, these studies suggest that, in addition to cooperative transcriptional regulation of AR-bound genes, SLNCR regulates the expression of additional non-AR bound genes through modulation of transcription factor activity, possibly by inhibition of p21. SLNCR Recruits AR to EGR1-Bound Loci To investigate how SLNCR and AR regulate gene expression, we searched for DNA sequence motifs enriched in AR ChIP-seq datasets. Shown is western blot analysis of total A375 lysate (input) or immunoprecipitate enriched following incubation with in vitro -transcribed, biotinylated, full-length SLNCR1 (bound). Left panel: western blot analysis of input and either bound or flowthrough (F.T.) samples following immunoprecipitation with the indicated antibody. Right panel: relative enrichment of SLNCR measured via qRT-PCR compared with input after normalization to the indicated transcript. (D) EGR1 binds directly to SLNCR1. AR ChIP-seq reads are from a sample ectopically expressing SLNCR1. Numbers on the top left indicate the plot height for each track. See also Figure S6. Incubation of biotinylated, full-length SLNCR1 with A375 melanoma cell lysate followed by streptavidin pulldown enriched AR and EGR1 ( Figure 5B ). These data confirm that endogenous levels of SLNCR and EGR1 interact in A375 cells. To distinguish between direct interaction of SLNCR and EGR1 versus an indirect interaction mediated by secondarily associated macromolecules, we performed RNA electrophoretic mobility shift assays (REMSAs). Interestingly, EGR1 binding increased RNA mobility (sub-shifted complex), as opposed to more commonly observed decreased RNA mobility (super-shifted complex), possibly as a consequence of altered RNA secondary structure upon protein binding. Unlabeled SLNCR1 competed for EGR1 binding, observed as a loss of increased mobility (i.e., upward shift). Collectively, these data further support the conclusion that endogenous SLNCR and EGR1 directly interact in vitro and at endogenous levels in melanoma cells. Because SLNCR1 binds to EGR1, and the EGR1 motif is enriched in AR-bound, SLNCR -regulated genes, we hypothesized that AR binds to a subset of SLNCR -regulated genes in cooperation with EGR1. To globally identify EGR1 binding sites in A375 cells, we performed EGR1 ChIP-seq. EGR1 binds a total of 8,373 active regions ( Table S3 ) corresponding to a total of 6,960 active genes ( Table S3 ). Surprisingly, we observed a significant overlap between AR and EGR1 binding sites. Additionally, AR and EGR1 frequently co-bound at SLNCR -regulated genes. Although AR and EGR1 bound only 25.3 (9,139 of 36,074) and 19.3 (6,960 of 36,074) of all genes, respectively, AR bound to 58.8 of EGR1-bound genes (4,091 of 6,960 total EGR1 active genes; binomial test, p Figure S6E ). It is important to note that co-bound genes were identified through a stringent analysis of overlapping ChIP-seq reads. This was accomplished by directly integrating AR and EGR1 ChIP-seq reads (spanning an average of only 747 bp) rather than extrapolating binding events occurring within 10,000 bp of an annotated gene. Consistent with cooperative transcription factor binding, AR and EGR1 ChIP-seq peak read intensities overlapped within many of the 44 SLNCR -regulated AR- and EGR-bound genes, including PSAT1, SHF, SLC36A11, and SSU72, and the divergently transcribed SLNCR -regulated gene pair NAA50 and ATP6V1A ( Figure 5F ). Collectively, these data reveal that AR and EGR binding sites overlap more frequently than expected by chance and that these sites are enriched among SLNCR -regulated genes. Because AR and EGR1 binding occurs at known or predicted EGR1 DNA binding motifs, these data suggest that EGR1 is required for regulation of at least a subset of AR- and SLNCR -regulated genes. Because SLNCR binds to both AR and EGR1, and AR and EGR1 co-bind EGR1 motifs within SLNCR -regulated genes, we postulated that SLNCR recruits AR to EGR1-occupied genomic regions. If true, then EGR1 should regulate the expression of these genes, and SLNCR - and AR-based regulation would require an intact EGR1 DNA binding site. In support of EGR1-mediated regulation, EGR1 expression is significantly correlated with expression of over half of SLNCR -regulated genes (65.3, 145 of 222), whereas significant correlation is maintained for 71 of these genes after correcting for multiple hypothesis testing (Bonferroni correction, p Table S1 ). Thus, in contrast to SLNCR and AR, which repress p21, EGR1 activates p21 expression in a p53-independent manner.Error bars represent SD calculated from 3 reactions. (C) Left panel: representative western blot analysis of A375 (top) or SK-MEL-28 (bottom) cell lysates probed for EGR1, GAPDH, or p21 levels. Center and right panels: protein levels were quantified using ImageJ and are presented as relative expression of the indicated protein, normalized to GAPDH levels. Relative FL activity was calculated as a fold change compared with vector-only control cells after normalization to RL activity. Shown is one representative assay from four independent biological replicates. Error bars represent SD from four reactions within one biological replicate. To test whether SLNCR - and AR-mediated p21 regulation requires an intact EGR1 binding site, we generated a firefly luciferase reporter construct containing 4,663 nt of the CDKN1A promoter, spanning from the transcription start site to 2,966 nt upstream of the translation start codon and containing the AR- and EGR1-bound consensus EGR1 DNA binding site ( Figure 6D ). In contrast to regulation of the endogenous CDKN1A gene ( Figure 4 ), knockdown of SLNCR or AR decreased expression of the ectopic CDKN1A luciferase reporter. Consistent with ligand-independent AR activation, SLNCR and AR knockdown also decreased expression of the CDKN1A reporter, even in the absence of exogenous hormones ( Figure S7B ). Importantly, mutation of the EGR1 binding site negated AR- or SLNCR -mediated regulation of the CDKN1A promoter, confirming that the EGR1 DNA binding site is required for SLNCR - and AR-based regulation of CDKN1A. Together, these data strongly suggest that AR and SLNCR associate with the CDKN1A promoter through DNA-bound EGR1. Implications of SLNCR -Mediated AR Activity and the Melanoma Gender Bias The above results indicate that SLNCR -mediated repression of p21 requires AR and EGR1. To explore potential contributions of SLNCR -mediated AR activity to these gender differences, we interrogated TCGA to determine whether p21 is expressed in a gender-specific manner. To avoid confounding our analysis with p53-dependent regulation of p21, we limited our analysis to p53-deficient melanomas ( Table S4 ). DISCUSSION Despite the long-held belief that AR contributes to melanomagenesis, there has been little progress in determining the role of AR in melanoma etiology. Moreover, the interpretation that AR acts as a melanoma oncogene has been confounded by the fact that AR expression is not associated with worse overall melanoma survival (data not shown). Here we comprehensively interrogated the role of AR in melanoma gene regulation, identifying many AR-regulated tumor suppressors and oncogenes. This work suggests that SLNCR imparts androgen-independent oncogenic activity to AR, including repression of p21. Our work highlights the importance of SLNCR in mediating AR’s oncogenic effects in melanoma, particularly in the context of the melanoma gender bias. Melanoma is a complex and heterogenous disease associated with phenotypically and transcriptionally distinct growth phases. During the radial growth phase (RGP), melanomas proliferate rapidly but are unable to undergo metastasis. Upon transition to the vertical growth phase (VGP), the newly formed tumor begins to grow vertically into the dermis and acquires the ability to metastasize ( Braeuer et al., 2011; Mobley et al., 2012 ). Moreover, melanoma cells likely fluctuate between proliferative and invasive states associated with distinct but dynamic transcriptional signatures ( Hoeck et al., 2006, 2008 ). Although AR and SLNCR have been implicated previously in melanoma invasion, this work defines a role of both in the regulation of melanoma proliferation as well, suggesting that AR and SLNCR may be critical regulators of the RGP-to-VGP transition. Our data suggest that inhibiting SLNCR function in human melanomas would decrease tumor growth and metastasis. Mouse xenografts are frequently used in preclinical development to test disease mechanisms and model therapy in vivo. We are planning experiments to test SLNCR function in a xenograft model of melanoma. In support of the observations described here, knocking down SLNCR decreases tumor growth and metastasis in mouse xenograft models of lung cancer and hepatocellular carcinoma ( Lu et al., 2017a, 2017b; Zhang et al., 2017 ). Collectively, our data are consistent with a model in which SLNCR recruits AR to chromatin-bound EGR1 to inhibit EGR1-mediated transcriptional activation of p21 ( Figure 7 ). Under normal physiological conditions, EGR1 binds directly to an EGR1 consensus motif located within the CDKN1A promoter, increasing p21 expression. These findings agree with previous reports identifying EGR1 as an important activator of p21 in glioma and gastric, colon, prostate, and breast cancer ( Escoubet-Lozach et al., 2009; Kim et al., 2007, 2014; Parra et al., 2011; Shin et al., 2010, 2012 ).